public override byte[] Rebuild()
{
FileOutput f = new FileOutput();
f.endian = Endian;
f.WriteUInt(0x0000FEFF);
f.endian = Endianness.Big;
f.WriteUInt(Magic);
f.endian = Endian;
f.WriteInt(0); // Always 0
f.WriteInt(Frames.Count);
for (int i = 0; i < Frames.Count; i++)
{
f.WriteFloat(Frames[i].qx);
f.WriteFloat(Frames[i].qy);
f.WriteFloat(Frames[i].qz);
f.WriteFloat(Frames[i].qw);
f.WriteFloat(Frames[i].x);
f.WriteFloat(Frames[i].y);
f.WriteFloat(Frames[i].z);
}
return(f.GetBytes());
}
public override byte[] Rebuild()
{
FileOutput buf = new FileOutput();
buf.endian = Endianness.Little;
var flagsOffset = 0x10;
var entriesOffset = flagsOffset + (atlases.Count * 4);
var stringsOffset = entriesOffset + (textures.Count * 0x20);
buf.WriteInt(0x544C5354); // TLST
buf.WriteShort(0); // idk
buf.WriteShort((short)atlases.Count);
buf.WriteShort((short)textures.Count);
buf.WriteShort((short)flagsOffset);
buf.WriteShort((short)entriesOffset);
buf.WriteShort((short)stringsOffset);
// flags
foreach (var flag in atlases)
{
buf.WriteInt((int)flag);
}
// entries
int namePtr = 0;
foreach (var texture in textures)
{
buf.WriteInt(namePtr);
buf.WriteInt(namePtr);
namePtr += texture.name.Length + 1;
buf.WriteFloat(texture.topLeft.X);
buf.WriteFloat(texture.topLeft.Y);
buf.WriteFloat(texture.botRight.X);
buf.WriteFloat(texture.botRight.Y);
buf.WriteShort(texture.width);
buf.WriteShort(texture.height);
buf.WriteShort(texture.atlasId);
buf.WriteShort(0); // pad
}
//strings
foreach (var texture in textures)
{
buf.WriteString(texture.name);
buf.WriteByte(0);
}
buf.WriteByte(0);
return(buf.GetBytes());
}
public override byte[] Rebuild()
{
FileOutput o = new FileOutput();
o.endian = Endianness.Little;
o.WriteString(" BWS");
o.WriteShort(0x05);
o.WriteShort(0x01);
o.WriteInt(bones.Count);
foreach (SBEntry s in bones)
{
o.WriteInt((int)s.hash);
o.WriteFloat(s.param1_1);
o.WriteInt(s.param1_2);
o.WriteInt(s.param1_3);
o.WriteFloat(s.param2_1);
o.WriteFloat(s.param2_2);
o.WriteInt(s.param2_3);
o.WriteFloat(s.rx1);
o.WriteFloat(s.rx2);
o.WriteFloat(s.ry1);
o.WriteFloat(s.ry2);
o.WriteFloat(s.rz1);
o.WriteFloat(s.rz2);
for (int j = 0; j < 8; j++)
{
o.WriteInt((int)s.boneHashes[j]);
}
for (int j = 0; j < 4; j++)
{
o.WriteFloat(s.unks1[j]);
}
for (int j = 0; j < 6; j++)
{
o.WriteFloat(s.unks2[j]);
}
o.WriteFloat(s.factor);
for (int j = 0; j < 3; j++)
{
o.WriteInt(s.ints[j]);
}
}
return(o.GetBytes());
}
public static byte[] FromIDSP(byte[] idsp)
{
File.WriteAllBytes("temp.idsp", idsp);
IntPtr vgm = VGMStreamNative.InitVGMStream("temp.idsp");
if (vgm == IntPtr.Zero)
{
throw new Exception("Error loading idsp");
}
int channelCount = VGMStreamNative.GetVGMStreamChannelCount(vgm);
int bitsPerFrame = VGMStreamNative.GetVGMStreamFrameSize(vgm);
int size = VGMStreamNative.GetVGMStreamTotalSamples(vgm);
int samplerate = VGMStreamNative.GetVGMStreamSampleRate(vgm);
int total = (int)((samplerate * bitsPerFrame * channelCount * (size / 24576000f)) / 8 * 1024);
short[] buffer = new short[total];
VGMStreamNative.RenderVGMStream(buffer, buffer.Length / 2, vgm);
FileOutput o = new FileOutput();
o.endian = Endianness.Little;
o.WriteString("RIFF");
o.WriteInt(0);
o.WriteString("WAVEfmt ");
o.WriteInt(0x10);
o.WriteShort(1);
o.WriteShort(channelCount);
o.WriteInt(samplerate);
o.WriteInt(size);
o.WriteShort(2);
o.WriteShort(0x10);
o.WriteString("data");
o.WriteInt(buffer.Length);
for (int i = 0; i < buffer.Length / 2; i++)
{
o.WriteShort(buffer[i]);
}
o.WriteIntAt(o.Size() - 8, 4);
VGMStreamNative.CloseVGMStream(vgm);
File.Delete("temp.idsp");
return(o.GetBytes());
}
public override byte[] Rebuild()
{
FileOutput o = new FileOutput();
o.endian = Endianness.Little;
FileOutput d = new FileOutput();
d.endian = Endianness.Little;
o.WriteString("NUS3");
o.WriteInt(0);
o.WriteString("BANKTOC ");
o.WriteInt(0x3C);
o.WriteInt(0x07);
// write each section
o.WriteString("PROP");
o.WriteInt(prop.Rebuild(d));
o.WriteString("BINF");
o.WriteInt(binf.Rebuild(d));
o.WriteString("GRP ");
o.WriteInt(grp.Rebuild(d));
o.WriteString("DTON");
o.WriteInt(dton.Rebuild(d));
o.WriteString("TONE");
o.WriteInt(tone.Rebuild(d));
o.WriteString("JUNK");
o.WriteInt(4);
//d.writeString("JUNK");
d.WriteInt(4);
d.WriteInt(0);
o.WriteString("PACK");
o.WriteInt(0);
o.WriteOutput(d);
o.WriteIntAt(o.Size(), 4);
// something extra with bgm??
return(o.GetBytes());
}
public void Play()
{
// this cannot be very fast .-.
// if anyone know how to pass the file via a byte array then that would be great...
File.WriteAllBytes("temp.idsp", idsp);
Console.WriteLine("here");
IntPtr vgm = VGMStreamNative.InitVGMStream("temp.idsp");
if (vgm == IntPtr.Zero)
{
throw new Exception("Error loading idsp");
}
Console.WriteLine("here");
int channelCount = VGMStreamNative.GetVGMStreamChannelCount(vgm);
int bitsPerFrame = VGMStreamNative.GetVGMStreamFrameSize(vgm);
int size = VGMStreamNative.GetVGMStreamTotalSamples(vgm);
int samplerate = VGMStreamNative.GetVGMStreamSampleRate(vgm);
Console.WriteLine("here");
int total = (int)((samplerate * bitsPerFrame * channelCount * (size / 24576000f)) / 8 * 1024);
//Console.WriteLine(channelCount + " " + bitsPerFrame + " " + size + " " + samplerate + " " + total.ToString("x"));
short[] buffer = new short[total];
VGMStreamNative.RenderVGMStream(buffer, buffer.Length / 2, vgm);
Console.WriteLine("here");
FileOutput o = new FileOutput();
o.endian = Endianness.Little;
for (int i = 0; i < buffer.Length / 2; i++)
{
o.WriteShort(buffer[i]);
}
o.Save("test.wav");
Console.WriteLine("here");
WAVE.Play(o.GetBytes(), VGMStreamNative.GetVGMStreamChannelCount(vgm), VGMStreamNative.GetVGMStreamSamplesPerFrame(vgm), VGMStreamNative.GetVGMStreamSampleRate(vgm));
VGMStreamNative.CloseVGMStream(vgm);
File.Delete("temp.idsp");
}
public override byte[] Rebuild()
{
FileOutput f = new FileOutput();
f.endian = endianess;
f.WriteInt(entries.Count);
f.WriteInt(otherEntries.Count);
f.WriteInt(0x30);
f.WriteInt(0x20);
f.WriteInt(0x8);
f.WriteInt(0x30);
byte[] entryData = RebuildEntries(new FileOutput());
f.WriteInt(entryData.Length + 0x30);
f.WriteBytes(new byte[0x14]);
f.WriteBytes(entryData);
f.WriteBytes(RebuildOtherEntries(new FileOutput(), f.Pos()));
return(f.GetBytes());
}
public byte[] Rebuild(int pos)
{
FileOutput f = new FileOutput();
f.endian = Endianness.Big;
f.WriteInt(pos + f.Pos() + 0x20);
f.WriteInt(unknown);
f.WriteInt(valueCount);
f.WriteInt(frames.Count);
f.WriteShort(unknown2);
f.WriteShort(animType);
int position = pos + f.Pos() + 0xC + name.Length + 1;
while (position % 0x10 != 0)
{
position++;
}
f.WriteInt(position);
f.WriteBytes(new byte[8]);
f.WriteString(name);
f.WriteByte(0);
while ((pos + f.Pos()) % 0x10 != 0)
{
f.WriteByte(0);
}
foreach (frame fr in frames)
{
for (int i = 0; i < valueCount; i++)
{
f.WriteFloat(fr.values[i]);
}
}
f.WriteBytes(new byte[0x10]);
return(f.GetBytes());
}
public byte[] Rebuild(int pos)
{
FileOutput f = new FileOutput();
f.endian = Endianness.Big;
f.WriteInt(pos + f.Pos() + 0x8);
f.WriteInt(0);
f.WriteInt(defaultTexId);
f.WriteInt(keyframes.Count);
f.WriteInt(pos + f.Pos() + 0x1C);
f.WriteInt(frameCount - 1);
f.WriteInt(unknown);
f.WriteBytes(new byte[0x10]);
foreach (keyframe k in keyframes)
{
f.WriteInt(k.texId);
f.WriteInt(k.frameNum);
}
return(f.GetBytes());
}
public byte[] Rebuild(int pos)
{
FileOutput f = new FileOutput();
f.endian = Endianness.Big;
f.WriteInt(pos + f.Pos() + 0x20);
f.WriteInt(Convert.ToInt32(unk1));
int offset = pos + f.Pos() + 0x18;
offset += name.Length + 1;
while (offset % 16 != 0)
{
offset++;
}
offset += 0x10;
f.WriteInt(offset);
f.WriteBytes(new byte[0x14]);
f.WriteString(name);
f.WriteByte(0);
while ((pos + f.Pos()) % 16 != 0)
{
f.WriteByte(0);
}
f.WriteBytes(new byte[0x10]);
f.WriteInt(frameCount);
f.WriteShort(Convert.ToInt32(unk2));
f.WriteShort(frames.Count);
f.WriteInt(pos + f.Pos() + 0x18);
f.WriteBytes(new byte[0x14]);
foreach (frame keyframe in frames)
{
f.WriteShort(keyframe.frameNum);
f.WriteByte(keyframe.state);
f.WriteByte(keyframe.unknown);
}
return(f.GetBytes());
}
public byte[] RebuildEntries(FileOutput f)
{
List <int> nameOffsets = new List <int>();
int nameTableOffset = 0x30 + (0x20 * entries.Count);
FileOutput nameTable = new FileOutput()
{
endian = Endianness.Big
};
foreach (Entry entry in entries)
{
nameOffsets.Add(nameTableOffset + nameTable.Pos());
nameTable.WriteString(entry.name);
nameTable.WriteBytes(new byte[4 - (entry.name.Length % 4)]); //Pad to next word
}
while (nameTable.Pos() % 0x10 != 0)
{
nameTable.WriteByte(0);
}
for (int i = 0; i < entries.Count; i++)
{
entries[i].values[0] = nameOffsets[i];
}
foreach (Entry entry in entries)
{
foreach (int value in entry.values)
{
f.WriteInt(value);
}
}
f.WriteBytes(nameTable.GetBytes());
return(f.GetBytes());
}
public static byte[] EncodeImage(Bitmap img, Tex_Formats type)
{
if (type == Tex_Formats.ETC1)
{
return(RG_ETC1.encodeETC(img));
}
if (type == Tex_Formats.ETC1a4)
{
return(RG_ETC1.encodeETCa4(img));
}
FileOutput o = new FileOutput();
BitmapData bmpData = img.LockBits(new Rectangle(0, 0, img.Width, img.Height), ImageLockMode.WriteOnly, img.PixelFormat);
int[] pixels = new int[img.Width * img.Height];
Marshal.Copy(bmpData.Scan0, pixels, 0, pixels.Length);
img.UnlockBits(bmpData);
for (int h = 0; h < img.Height; h += 8)
{
for (int w = 0; w < img.Width; w += 8)
{
// 8x8 block
List <byte[]> colors = new List <byte[]>();
for (int bh = 0; bh < 8; bh++)
{
for (int bw = 0; bw < 8; bw++)
{
switch (type)
{
case Tex_Formats.RGBA8: colors.Add(encode8888(pixels[(w + bw) + (h + bh) * img.Width])); break;
case Tex_Formats.RGB8: colors.Add(encode8(pixels[(w + bw) + (h + bh) * img.Width])); break;
case Tex_Formats.RGBA4444: colors.Add(encode4444(pixels[(w + bw) + (h + bh) * img.Width])); break;
case Tex_Formats.RGBA5551: colors.Add(encode5551(pixels[(w + bw) + (h + bh) * img.Width])); break;
case Tex_Formats.RGB565: colors.Add(encode565(pixels[(w + bw) + (h + bh) * img.Width])); break;
case Tex_Formats.LA8: colors.Add(encodeLA8(pixels[(w + bw) + (h + bh) * img.Width])); break;
case Tex_Formats.HILO8: colors.Add(encodeHILO8(pixels[(w + bw) + (h + bh) * img.Width])); break;
case Tex_Formats.L8: colors.Add(encodeL8(pixels[(w + bw) + (h + bh) * img.Width])); break;
case Tex_Formats.A8: colors.Add(encodeA8(pixels[(w + bw) + (h + bh) * img.Width])); break;
case Tex_Formats.LA4: colors.Add(encodeLA4(pixels[(w + bw) + (h + bh) * img.Width])); break;
case Tex_Formats.L4:
{
colors.Add(new byte[] { (byte)((encodeL8(pixels[(w + bw) + (h + bh) * img.Width])[0] / 0x11) & 0xF | ((encodeL8(pixels[(w + bw) + (h + bh) * img.Width + 1])[0] / 0x11) << 4)) });
bw++;
break;
}
case Tex_Formats.A4:
{
colors.Add(new byte[] { (byte)((encodeA8(pixels[(w + bw) + (h + bh) * img.Width])[0] / 0x11) & 0xF | ((encodeA8(pixels[(w + bw) + (h + bh) * img.Width + 1])[0] / 0x11) << 4)) });
bw++;
break;
}
}
}
}
for (int bh = 0; bh < 8; bh++)
{
for (int bw = 0; bw < 8; bw++)
{
int pos = bw + bh * 8;
for (int i = 0; i < zorder.Length; i++)
{
if (zorder[i] == pos)
{
if (type == Tex_Formats.L4 || type == Tex_Formats.A4)
{
i /= 2; bw++;
}
o.WriteBytes(colors[i]);
break;
}
}
}
}
}
}
return(o.GetBytes());
}
public byte[] Rebuild(bool dump = false)
{
FileOutput o = new FileOutput();
TextWriter oldOut = Console.Out;
MemoryStream ostrm = new MemoryStream(0xA00000);
StreamWriter writer = new StreamWriter(ostrm);
Console.SetOut(writer);
// TODO: write correct filesize in header.
// It isn't checked by the game, but what the hell, right?
header.Write(o);
writeSymbols(o);
writeColors(o);
writeTransforms(o);
writePositions(o);
writeBounds(o);
Actionscript.Write(o);
if (Actionscript2 != null)
{
Actionscript2.Write(o);
}
writeAtlases(o);
unkF008.Write(o);
unkF009.Write(o);
unkF00A.Write(o);
unk000A.Write(o);
unkF00B.Write(o);
properties.Write(o);
Defines.numShapes = (uint)Shapes.Count;
Defines.numSprites = (uint)Sprites.Count;
Defines.numTexts = (uint)Texts.Count;
Defines.Write(o);
writeShapes(o);
writeSprites(o);
writeTexts(o);
o.WriteInt((int)TagType.End);
o.WriteInt(0);
int padSize = (4 - (o.Size() % 4)) % 4;
for (int i = 0; i < padSize; i++)
{
o.WriteByte(0);
}
if (dump)
{
writer.Flush();
using (var filestream = new FileStream("dump.txt", FileMode.Create))
ostrm.WriteTo(filestream);
}
Console.SetOut(oldOut);
o.Save(Filename);
return(o.GetBytes());
}
public static byte[] encodeETCa4(Bitmap b)
{
int width = b.Width;
int height = b.Height;
int[] pixels = new int[width * height];
int i, j;
FileOutput o = new FileOutput();
o.endian = System.IO.Endianness.Little;
for (i = 0; i < height; i += 8)
{
for (j = 0; j < width; j += 8)
{
int x, y;
Color[] temp = new Color[16];
int pi = 0;
for (x = i; x < i + 4; x++)
{
for (y = j; y < j + 4; y++)
{
temp[pi++] = b.GetPixel(y, x);
}
}
for (int ax = 0; ax < 4; ax++)
{
for (int ay = 0; ay < 4; ay++)
{
int a = (temp[ax + ay * 4].A >> 4);
ay++;
a |= (temp[ax + ay * 4].A >> 4) << 4;
o.WriteByte(a);
}
}
ulong g = GenETC1(temp);
o.WriteInt((int)(g & 0xFFFFFFFF));
o.WriteInt((int)((g >> 32) & 0xFFFFFFFF));
temp = new Color[16];
pi = 0;
for (x = i; x < i + 4; x++)
{
for (y = j + 4; y < j + 8; y++)
{
temp[pi++] = b.GetPixel(y, x);
}
}
for (int ax = 0; ax < 4; ax++)
{
for (int ay = 0; ay < 4; ay++)
{
int a = (temp[ax + ay * 4].A >> 4);
ay++;
a |= (temp[ax + ay * 4].A >> 4) << 4;
o.WriteByte(a);
}
}
g = GenETC1(temp);
o.WriteInt((int)(g & 0xFFFFFFFF));
o.WriteInt((int)((g >> 32) & 0xFFFFFFFF));
temp = new Color[16];
pi = 0;
for (x = i + 4; x < i + 8; x++)
{
for (y = j; y < j + 4; y++)
{
temp[pi++] = b.GetPixel(y, x);
}
}
for (int ax = 0; ax < 4; ax++)
{
for (int ay = 0; ay < 4; ay++)
{
int a = (temp[ax + ay * 4].A >> 4);
ay++;
a |= (temp[ax + ay * 4].A >> 4) << 4;
o.WriteByte(a);
}
}
g = GenETC1(temp);
o.WriteInt((int)(g & 0xFFFFFFFF));
o.WriteInt((int)((g >> 32) & 0xFFFFFFFF));
temp = new Color[16];
pi = 0;
for (x = i + 4; x < i + 8; x++)
{
for (y = j + 4; y < j + 8; y++)
{
temp[pi++] = b.GetPixel(y, x);
}
}
for (int ax = 0; ax < 4; ax++)
{
for (int ay = 0; ay < 4; ay++)
{
int a = (temp[ax + ay * 4].A >> 4);
ay++;
a |= (temp[ax + ay * 4].A >> 4) << 4;
o.WriteByte(a);
}
}
g = GenETC1(temp);
o.WriteInt((int)(g & 0xFFFFFFFF));
o.WriteInt((int)((g >> 32) & 0xFFFFFFFF));
}
}
return(o.GetBytes());
}
public override byte[] Rebuild()
{
FileOutput file = new FileOutput();
if (file != null)
{
if (Endian == Endianness.Little)
{
file.endian = Endianness.Little;
file.WriteString(" NBV");
file.WriteShort(0x02);
file.WriteShort(0x01);
}
else if (Endian == Endianness.Big)
{
file.endian = Endianness.Big;
file.WriteString("VBN ");
file.WriteShort(0x01);
file.WriteShort(0x02);
}
file.WriteInt(bones.Count);
if (boneCountPerType[0] == 0)
{
boneCountPerType[0] = (uint)bones.Count;
}
List <Bone> Normal = new List <Bone>();
List <Bone> Unk = new List <Bone>();
List <Bone> Helper = new List <Bone>();
List <Bone> Swing = new List <Bone>();
string[] SpecialBones = new string[] { "TransN",
"RotN",
"HipN",
"LLegJ",
"LKneeJ",
"LFootJ",
"LToeN",
"RLegJ",
"RKneeJ",
"RFootJ",
"RToeN",
"WaistN",
"BustN",
"LShoulderN",
"LShoulderJ",
"LArmJ",
"LHandN",
"RShoulderN",
"RShoulderJ",
"RArmJ",
"RHandN",
"NeckN",
"HeadN",
"RHaveN",
"LHaveN",
"ThrowN" };
Bone[] Special = new Bone[SpecialBones.Length];
int specialCount = 0;
// OrderPass
foreach (Bone b in bones)
{
for (int i = 0; i < SpecialBones.Length; i++)
{
if (b.Text.Equals(SpecialBones[i]) || (SpecialBones[i].Equals("RotN") && b.Text.Equals("XRotN")))
{
specialCount++;
Special[i] = b;
break;
}
}
}
Console.WriteLine(SpecialBones.Length + " " + specialCount);
if (specialCount == SpecialBones.Length)
{
Normal.AddRange(Special);
}
//Gather Each Bone Type
foreach (Bone b in bones)
{
switch (b.boneType)
{
case 0: if (!Normal.Contains(b))
{
Normal.Add(b);
}
break;
case 2: Helper.Add(b); break;
case 3: Swing.Add(b); break;
default: Unk.Add(b); break;
}
}
file.WriteInt(Normal.Count);
file.WriteInt(Unk.Count);
file.WriteInt(Helper.Count);
file.WriteInt(Swing.Count);
List <Bone> NewBoneOrder = new List <Bone>();
NewBoneOrder.AddRange(Normal);
NewBoneOrder.AddRange(Unk);
NewBoneOrder.AddRange(Helper);
NewBoneOrder.AddRange(Swing);
bones.Clear();
bones = NewBoneOrder;
for (int i = 0; i < bones.Count; i++)
{
file.WriteString(bones[i].Text);
for (int j = 0; j < 64 - bones[i].Text.Length; j++)
{
file.WriteByte(0);
}
file.WriteInt((int)bones[i].boneType);
if (bones[i].parentIndex == -1)
{
file.WriteInt(0x0FFFFFFF);
}
else
{
file.WriteInt(bones[i].parentIndex);
}
file.WriteInt((int)bones[i].boneId);
}
for (int i = 0; i < bones.Count; i++)
{
file.WriteFloat(bones[i].position[0]);
file.WriteFloat(bones[i].position[1]);
file.WriteFloat(bones[i].position[2]);
file.WriteFloat(bones[i].rotation[0]);
file.WriteFloat(bones[i].rotation[1]);
file.WriteFloat(bones[i].rotation[2]);
file.WriteFloat(bones[i].scale[0]);
file.WriteFloat(bones[i].scale[1]);
file.WriteFloat(bones[i].scale[2]);
}
}
return(file.GetBytes());
}
public override byte[] Rebuild()
{
FileOutput f = new FileOutput();
f.endian = Endianness.Little;
FileOutput fv = new FileOutput();
fv.endian = Endianness.Little;
f.WriteShort(format);
f.WriteShort(unknown);
f.WriteInt(flags);
f.WriteInt(mode);
bool hasNameTable = (flags & 2) > 0;
f.WriteInt(mesh.Count);
int vertSize = 0;
// Vertex Bank
for (int i = 0; i < 1; i++)
{
if (mode == 0 || i == 0)
{
Descriptor des = descript[i];
if (format != 4)
{
foreach (Vertex v in vertices)
{
for (int k = 0; k < des.type.Length; k++)
{
fv.Align(2, 0x00);
switch (des.type[k])
{
case 0: //Position
writeType(fv, v.pos.X, des.format[k], des.scale[k]);
writeType(fv, v.pos.Y, des.format[k], des.scale[k]);
writeType(fv, v.pos.Z, des.format[k], des.scale[k]);
break;
case 1: //Normal
writeType(fv, v.nrm.X, des.format[k], des.scale[k]);
writeType(fv, v.nrm.Y, des.format[k], des.scale[k]);
writeType(fv, v.nrm.Z, des.format[k], des.scale[k]);
break;
case 2: //Color
writeType(fv, v.col.X, des.format[k], des.scale[k]);
writeType(fv, v.col.Y, des.format[k], des.scale[k]);
writeType(fv, v.col.Z, des.format[k], des.scale[k]);
writeType(fv, v.col.W, des.format[k], des.scale[k]);
break;
case 3: //Tex0
writeType(fv, v.tx[0].X, des.format[k], des.scale[k]);
writeType(fv, v.tx[0].Y, des.format[k], des.scale[k]);
break;
case 4: //Tex1
writeType(fv, v.tx[1].X, des.format[k], des.scale[k]);
writeType(fv, v.tx[1].Y, des.format[k], des.scale[k]);
break;
case 5: //Bone Index
fv.WriteByte(v.node[0]);
fv.WriteByte(v.node[1]);
break;
case 6: //Bone Weight
writeType(fv, v.weight[0], des.format[k], des.scale[k]);
writeType(fv, v.weight[1], des.format[k], des.scale[k]);
break;
//default:
// Console.WriteLine("WTF is this");
}
}
}
vertSize = fv.Size();
fv.Align(32, 0xFF);
}
}
for (int j = 0; j < mesh.Count; j++)
{
foreach (List <int> l in mesh[j].faces)
{
foreach (int index in l)
{
fv.WriteShort(index);
}
fv.Align(32, 0xFF);
}
}
}
for (int i = 0; i < mesh.Count; i++)
{
if (i == 0 && mode == 1)
{
descript[0].WriteDescription(f);
f.WriteInt(vertSize);
}
f.WriteInt(mesh[i].nodeList.Count);
//Console.WriteLine(mesh[i].faces.Count + " " + mesh[i].nodeList.Count);
for (int j = 0; j < mesh[i].nodeList.Count; j++)
{
f.WriteInt(mesh[i].nodeList[j].Count);
for (int k = 0; k < mesh[i].nodeList[j].Count; k++)
{
f.WriteInt(mesh[i].nodeList[j][k]);
}
f.WriteInt(mesh[i].faces[j].Count);
// TODO: This stuff
if (hasNameTable)
{
//int nameId = d.readInt();
}
/*if (mode == 0)
* {
* if (format == 4)
* {
* int[] buffer = new int[primitiveCount];
* for (int k = 0; k < primitiveCount; k++)
* {
* buffer[k] = d.readShort();
* }
* d.align(4);
* List<int> buf = new List<int>();
* buf.AddRange(buffer);
* m.faces.Add(buf);
* }
* else
* {
* Descriptor des = new Descriptor();
* des.ReadDescription(d);
* descript.Add(des);
* }
*
* }*/
}
}
// TODO: STRING TABLE
/*if (hasNameTable)
* {
* for (int i = 0; i < mesh.Count; i++)
* {
* int index = d.readByte();
* nameTable.Add(d.readString());
* }
* }*/
if (format != 4)
{
f.Align(32, 0xFF);
}
f.WriteOutput(fv);
return(f.GetBytes());
}
public override byte[] Rebuild()
{
FileOutput o = new FileOutput();
FileOutput data = new FileOutput();
//We always want BE for the first six bytes
o.endian = Endianness.Big;
data.endian = Endianness.Big;
if (Endian == Endianness.Big)
{
o.WriteUInt(0x4E545033); //NTP3
}
else if (Endian == Endianness.Little)
{
o.WriteUInt(0x4E545744); //NTWD
}
//Most NTWU NUTs are 0x020E, which isn't valid for NTP3/NTWD
if (Version > 0x0200)
{
Version = 0x0200;
}
o.WriteUShort(Version);
//After that, endian is used appropriately
o.endian = Endian;
data.endian = Endian;
o.WriteUShort((ushort)Nodes.Count);
o.WriteInt(0);
o.WriteInt(0);
//calculate total header size
uint headerLength = 0;
foreach (NutTexture texture in Nodes)
{
byte surfaceCount = (byte)texture.surfaces.Count;
bool isCubemap = surfaceCount == 6;
if (surfaceCount < 1 || surfaceCount > 6)
{
throw new NotImplementedException($"Unsupported surface amount {surfaceCount} for texture with hash 0x{texture.HashId:X}. 1 to 6 faces are required.");
}
else if (surfaceCount > 1 && surfaceCount < 6)
{
throw new NotImplementedException($"Unsupported cubemap face amount for texture with hash 0x{texture.HashId:X}. Six faces are required.");
}
byte mipmapCount = (byte)texture.surfaces[0].mipmaps.Count;
ushort headerSize = 0x50;
if (isCubemap)
{
headerSize += 0x10;
}
if (mipmapCount > 1)
{
headerSize += (ushort)(mipmapCount * 4);
while (headerSize % 0x10 != 0)
{
headerSize += 1;
}
}
headerLength += headerSize;
}
// write headers+data
foreach (NutTexture texture in Nodes)
{
byte surfaceCount = (byte)texture.surfaces.Count;
bool isCubemap = surfaceCount == 6;
byte mipmapCount = (byte)texture.surfaces[0].mipmaps.Count;
uint dataSize = 0;
foreach (var mip in texture.GetAllMipmaps())
{
dataSize += (uint)mip.Length;
while (dataSize % 0x10 != 0)
{
dataSize += 1;
}
}
ushort headerSize = 0x50;
if (isCubemap)
{
headerSize += 0x10;
}
if (mipmapCount > 1)
{
headerSize += (ushort)(mipmapCount * 4);
while (headerSize % 0x10 != 0)
{
headerSize += 1;
}
}
o.WriteUInt(dataSize + headerSize);
o.WriteUInt(0);
o.WriteUInt(dataSize);
o.WriteUShort(headerSize);
o.WriteUShort(0);
o.WriteByte(0);
o.WriteByte(mipmapCount);
o.WriteByte(0);
o.WriteByte(texture.getNutFormat());
o.WriteShort(texture.Width);
o.WriteShort(texture.Height);
o.WriteInt(0);
o.WriteUInt(texture.DdsCaps2);
if (Version < 0x0200)
{
o.WriteUInt(0);
}
else if (Version >= 0x0200)
{
o.WriteUInt((uint)(headerLength + data.Size()));
}
headerLength -= headerSize;
o.WriteInt(0);
o.WriteInt(0);
o.WriteInt(0);
if (isCubemap)
{
o.WriteInt(texture.surfaces[0].mipmaps[0].Length);
o.WriteInt(texture.surfaces[0].mipmaps[0].Length);
o.WriteInt(0);
o.WriteInt(0);
}
if (texture.getNutFormat() == 14 || texture.getNutFormat() == 17)
{
texture.SwapChannelOrderDown();
}
for (byte surfaceLevel = 0; surfaceLevel < surfaceCount; ++surfaceLevel)
{
for (byte mipLevel = 0; mipLevel < mipmapCount; ++mipLevel)
{
int ds = data.Size();
data.WriteBytes(texture.surfaces[surfaceLevel].mipmaps[mipLevel]);
data.Align(0x10);
if (mipmapCount > 1 && surfaceLevel == 0)
{
o.WriteInt(data.Size() - ds);
}
}
}
o.Align(0x10);
if (texture.getNutFormat() == 14 || texture.getNutFormat() == 17)
{
texture.SwapChannelOrderUp();
}
o.WriteBytes(new byte[] { 0x65, 0x58, 0x74, 0x00 }); // "eXt\0"
o.WriteInt(0x20);
o.WriteInt(0x10);
o.WriteInt(0x00);
o.WriteBytes(new byte[] { 0x47, 0x49, 0x44, 0x58 }); // "GIDX"
o.WriteInt(0x10);
o.WriteInt(texture.HashId);
o.WriteInt(0);
if (Version < 0x0200)
{
o.WriteOutput(data);
data = new FileOutput();
}
}
if (Version >= 0x0200)
{
o.WriteOutput(data);
}
return(o.GetBytes());
}
public override byte[] Rebuild()
{
FileOutput f = new FileOutput();
f.endian = Endianness.Big;
f.WriteString("MTA4");
f.WriteUInt(unknown);
f.WriteUInt(frameCount);
f.WriteUInt(startFrame);
f.WriteUInt(endFrame);
f.WriteUInt(frameRate);
f.WriteInt(matEntries.Count);
if (matEntries.Count > 0)
{
f.WriteInt(0x38);
}
else
{
f.WriteInt(0);
}
f.WriteInt(visEntries.Count);
if (visEntries.Count > 0)
{
f.WriteInt(0x38 + 4 * matEntries.Count);
}
else
{
f.WriteInt(0);
}
for (int i = 0; i < 0x10; i++)
{
f.WriteByte(0);
}
List <byte[]> matEntriesBuilt = new List <byte[]>();
List <byte[]> visEntriesBuilt = new List <byte[]>();
int position = 0x38 + matEntries.Count + visEntries.Count;
while (position % 0x10 != 0)
{
position++;
}
foreach (MatEntry m in matEntries)
{
byte[] b = m.Rebuild(position);
matEntriesBuilt.Add(b);
f.WriteInt(position);
position += b.Length;
while (position % 0x10 != 0)
{
position++;
}
}
foreach (VisEntry v in visEntries)
{
byte[] b = v.Rebuild(position);
matEntriesBuilt.Add(b);
f.WriteInt(position);
position += b.Length;
while (position % 0x10 != 0)
{
position++;
}
}
while (f.Pos() % 0x10 != 0)
{
f.WriteByte(0);
}
foreach (byte[] b in matEntriesBuilt)
{
f.WriteBytes(b);
while (f.Pos() % 0x10 != 0)
{
f.WriteByte(0);
}
}
foreach (byte[] b in visEntriesBuilt)
{
f.WriteBytes(b);
while (f.Pos() % 0x10 != 0)
{
f.WriteByte(0);
}
}
return(f.GetBytes());
}
public byte[] Rebuild(int pos)
{
FileOutput f = new FileOutput();
f.endian = Endianness.Big;
f.WriteInt(pos + f.Pos() + 0x20);
f.WriteInt(matHash);
f.WriteInt(properties.Count);
int nameOffset = pos + f.Pos() + 0x15 + name.Length;
while (nameOffset % 4 != 0)
{
nameOffset++;
}
f.WriteInt(nameOffset);
f.WriteFlag(hasPat);
f.WriteBytes(new byte[3]);
//Write all the mat data into a buffer (g) then write pat offset
int pos2 = pos + f.Pos() + 4;
FileOutput g = new FileOutput();
g.endian = Endianness.Big;
if (matHash2 != 0)
{
g.WriteInt(pos2 + g.Pos() + 0x8);
g.WriteInt(matHash);
}
else
{
g.WriteBytes(new byte[8]);
}
g.WriteString(name);
g.WriteByte(0);
while ((pos2 + g.Pos()) % 0x10 != 0)
{
g.WriteByte(0);
}
int position = pos2 + g.Pos() + properties.Count * 4;
while (position % 16 != 0)
{
position++;
}
List <byte[]> builtProperties = new List <byte[]>();
foreach (MatData prop in properties)
{
g.WriteInt(position);
byte[] b = prop.Rebuild(position);
builtProperties.Add(b);
position += b.Length;
while (position % 16 != 0)
{
position++;
}
}
while ((pos2 + g.Pos()) % 16 != 0)
{
g.WriteByte(0);
}
foreach (byte[] b in builtProperties)
{
g.WriteBytes(b);
while ((pos2 + g.Pos()) % 16 != 0)
{
g.WriteByte(0);
}
}
f.WriteInt(pos2 + g.Pos());
f.WriteBytes(g.GetBytes());
if (hasPat)
{
f.WriteBytes(pat0.Rebuild(f.Pos()));
}
return(f.GetBytes());
}
public static byte[] encodeETC(Bitmap b)
{
int width = b.Width;
int height = b.Height;
int[] pixels = new int[width * height];
init();
int i, j;
FileOutput o = new FileOutput();
o.endian = System.IO.Endianness.Little;
for (i = 0; i < height; i += 8)
{
for (j = 0; j < width; j += 8)
{
int x, y;
Color[] temp = new Color[16];
int pi = 0;
for (x = i; x < i + 4; x++)
{
for (y = j; y < j + 4; y++)
{
temp[pi++] = b.GetPixel(y, x);
}
}
o.WriteBytes(GenETC1(temp));
temp = new Color[16];
pi = 0;
for (x = i; x < i + 4; x++)
{
for (y = j + 4; y < j + 8; y++)
{
temp[pi++] = b.GetPixel(y, x);
}
}
o.WriteBytes(GenETC1(temp));
temp = new Color[16];
pi = 0;
for (x = i + 4; x < i + 8; x++)
{
for (y = j; y < j + 4; y++)
{
temp[pi++] = b.GetPixel(y, x);
}
}
o.WriteBytes(GenETC1(temp));
temp = new Color[16];
pi = 0;
for (x = i + 4; x < i + 8; x++)
{
for (y = j + 4; y < j + 8; y++)
{
temp[pi++] = b.GetPixel(y, x);
}
}
o.WriteBytes(GenETC1(temp));
}
}
return(o.GetBytes());
}
public static byte[] CreateOMOFromAnimation(Animation a, VBN vbn)
{
if (vbn == null || a == null)
{
return new byte[] { }
}
;
// Test Actual Bones
//-------------------------
List <Animation.KeyNode> toRem = new List <Animation.KeyNode>();
for (int j = 0; j < a.bones.Count; j++)
{
Animation.KeyNode keynode = ((Animation.KeyNode)a.bones[j]);
Bone b = vbn.getBone(keynode.Text);
if (b == null)
{
toRem.Add(keynode);
}
}
foreach (Animation.KeyNode r in toRem)
{
Console.WriteLine("Removing " + r.Text);
a.bones.Remove(r);
}
//-------------------------
FileOutput o = new FileOutput();
o.endian = Endianness.Big;
FileOutput t1 = new FileOutput();
t1.endian = Endianness.Big;
FileOutput t2 = new FileOutput();
t2.endian = Endianness.Big;
o.WriteString("OMO ");
o.WriteShort(1); //idk
o.WriteShort(3); //idk
o.WriteInt(0x091E100C); //flags??
o.WriteShort(0); //padding
o.WriteShort(a.bones.Count); // numOfNodes
o.WriteShort(a.frameCount); // frame size
o.WriteShort(0); // frame start ??
o.WriteInt(0);
o.WriteInt(0);
o.WriteInt(0);
o.WriteIntAt(o.Size(), 0x14);
// ASSESSMENT
Vector3[] maxT = new Vector3[a.bones.Count], minT = new Vector3[a.bones.Count];
Vector4[] maxR = new Vector4[a.bones.Count], minR = new Vector4[a.bones.Count];
Vector3[] maxS = new Vector3[a.bones.Count], minS = new Vector3[a.bones.Count];
bool[] hasScale = new bool[a.bones.Count];
bool[] hasTrans = new bool[a.bones.Count];
bool[] hasRot = new bool[a.bones.Count];
bool[] conScale = new bool[a.bones.Count];
bool[] conTrans = new bool[a.bones.Count];
bool[] conRot = new bool[a.bones.Count];
a.SetFrame(0);
List <List <Bone> > Frames = new List <List <Bone> >();
{
for (int j = 0; j < a.bones.Count; j++)
{
Animation.KeyNode keynode = ((Animation.KeyNode)a.bones[j]);
if (keynode.xpos.HasAnimation() || keynode.ypos.HasAnimation() || keynode.zpos.HasAnimation())
{
hasTrans[j] = true;
}
if (keynode.xrot.HasAnimation())
{
hasRot[j] = true;
}
if (keynode.xsca.HasAnimation() || keynode.ysca.HasAnimation() || keynode.zsca.HasAnimation())
{
hasScale[j] = true;
}
maxT[j] = new Vector3(-999f, -999f, -999f);
minT[j] = new Vector3(999f, 999f, 999f);
maxS[j] = new Vector3(-999f, -999f, -999f);
minS[j] = new Vector3(999f, 999f, 999f);
maxR[j] = new Vector4(-999f, -999f, -999f, -999f);
minR[j] = new Vector4(999f, 999f, 999f, 999f);
foreach (Animation.KeyFrame key in keynode.xpos.keys)
{
maxT[j].X = Math.Max(maxT[j].X, key.Value);
minT[j].X = Math.Min(minT[j].X, key.Value);
}
foreach (Animation.KeyFrame key in keynode.ypos.keys)
{
maxT[j].Y = Math.Max(maxT[j].Y, key.Value);
minT[j].Y = Math.Min(minT[j].Y, key.Value);
}
foreach (Animation.KeyFrame key in keynode.zpos.keys)
{
maxT[j].Z = Math.Max(maxT[j].Z, key.Value);
minT[j].Z = Math.Min(minT[j].Z, key.Value);
}
foreach (Animation.KeyFrame key in keynode.xsca.keys)
{
maxS[j].X = Math.Max(maxS[j].X, key.Value);
minS[j].X = Math.Min(minS[j].X, key.Value);
}
foreach (Animation.KeyFrame key in keynode.ysca.keys)
{
maxS[j].Y = Math.Max(maxS[j].Y, key.Value);
minS[j].Y = Math.Min(minS[j].Y, key.Value);
}
foreach (Animation.KeyFrame key in keynode.zsca.keys)
{
maxS[j].Z = Math.Max(maxS[j].Z, key.Value);
minS[j].Z = Math.Min(minS[j].Z, key.Value);
}
Bone b = vbn.getBone(keynode.Text);
for (int i = 0; i < a.frameCount; i++)
{
Quaternion r = new Quaternion();
if (keynode.rotType == Animation.RotationType.Quaternion)
{
Animation.KeyFrame[] x = keynode.xrot.GetFrame(i);
Animation.KeyFrame[] y = keynode.yrot.GetFrame(i);
Animation.KeyFrame[] z = keynode.zrot.GetFrame(i);
Animation.KeyFrame[] w = keynode.wrot.GetFrame(i);
Quaternion q1 = new Quaternion(x[0].Value, y[0].Value, z[0].Value, w[0].Value);
Quaternion q2 = new Quaternion(x[1].Value, y[1].Value, z[1].Value, w[1].Value);
if (x[0].Frame == i)
{
r = q1;
}
else
if (x[1].Frame == i)
{
r = q2;
}
else
{
r = Quaternion.Slerp(q1, q2, (i - x[0].Frame) / (x[1].Frame - x[0].Frame));
}
}
else
if (keynode.rotType == Animation.RotationType.Euler)
{
float x = keynode.xrot.HasAnimation() ? keynode.xrot.GetValue(i) : b.rotation[0];
float y = keynode.yrot.HasAnimation() ? keynode.yrot.GetValue(i) : b.rotation[1];
float z = keynode.zrot.HasAnimation() ? keynode.zrot.GetValue(i) : b.rotation[2];
r = Animation.EulerToQuat(z, y, x);
}
r.Normalize();
maxR[j].X = Math.Max(maxR[j].X, r.X);
minR[j].X = Math.Min(minR[j].X, r.X);
maxR[j].Y = Math.Max(maxR[j].Y, r.Y);
minR[j].Y = Math.Min(minR[j].Y, r.Y);
maxR[j].Z = Math.Max(maxR[j].Z, r.Z);
minR[j].Z = Math.Min(minR[j].Z, r.Z);
}
//if (b == null)continue;
if (b != null)
{
if (maxT[j].X == -999)
{
maxT[j].X = b.position[0];
}
if (maxT[j].Y == -999)
{
maxT[j].Y = b.position[1];
}
if (maxT[j].Z == -999)
{
maxT[j].Z = b.position[2];
}
if (minT[j].X == -999)
{
minT[j].X = b.position[0];
}
if (minT[j].Y == -999)
{
minT[j].Y = b.position[1];
}
if (minT[j].Z == -999)
{
minT[j].Z = b.position[2];
}
if (maxS[j].X == -999)
{
maxS[j].X = b.scale[0];
}
if (maxS[j].Y == -999)
{
maxS[j].Y = b.scale[1];
}
if (maxS[j].Z == -999)
{
maxS[j].Z = b.scale[2];
}
if (minS[j].X == -999)
{
minS[j].X = b.scale[0];
}
if (minS[j].Y == -999)
{
minS[j].Y = b.scale[1];
}
if (minS[j].Z == -999)
{
minS[j].Z = b.scale[2];
}
}
}
}
//TODO: Euler Rotation Values
/*VBN tempvbn = new VBN();
* a.SetFrame(0);
* for (int i = 0; i < a.FrameCount; i++)
* {
* //Frames.Add(new List<Bone>());
* for (int j = 0; j < a.Bones.Count; j++)
* {
* Animation.KeyNode keynode = a.Bones[j];
* Bone b = vbn.getBone(keynode.Text);
* //if(b == null) continue;
* maxR[j].X = Math.Max(maxR[j].X, b.rot.X);
* minR[j].X = Math.Min(minR[j].X, b.rot.X);
* maxR[j].Y = Math.Max(maxR[j].Y, b.rot.Y);
* minR[j].Y = Math.Min(minR[j].Y, b.rot.Y);
* maxR[j].Z = Math.Max(maxR[j].Z, b.rot.Z);
* minR[j].Z = Math.Min(minR[j].Z, b.rot.Z);
*
* Bone f1 = new Bone(tempvbn);
* f1.pos = b.pos;
* f1.rot = b.rot;
* f1.sca = b.sca;
* //Frames[i].Add(f1);
* }
* a.NextFrame(vbn);
* }*/
// NODE INFO
int t2Size = 0;
for (int i = 0; i < a.bones.Count; i++)
{
int flag = 0;
conRot[i] = false;
conScale[i] = false;
conTrans[i] = false;
// check for constant
if (maxT[i].Equals(minT[i]))
{
conTrans[i] = true;
}
if (maxR[i].Equals(minR[i]))
{
conRot[i] = true;
}
if (maxS[i].Equals(minS[i]))
{
conScale[i] = true;
}
if (hasTrans[i])
{
flag |= 0x01000000;
}
if (hasRot[i])
{
flag |= 0x02000000;
}
if (hasScale[i])
{
flag |= 0x04000000;
}
if (conTrans[i] && hasTrans[i])
{
flag |= 0x00200000;
}
else
{
flag |= 0x00080000;
}
if (conRot[i] && hasRot[i])
{
flag |= 0x00007000;
}
else
{
flag |= 0x00005000;
}
if (conScale[i] && hasScale[i])
{
flag |= 0x00000200;
}
else
{
flag |= 0x00000080;
}
flag |= 0x00000001;
//uint id = 999;
Bone b = vbn.getBone(a.bones[i].Text);
int hash = -1;
if (MainForm.hashes.names.ContainsKey(a.bones[i].Text))
{
hash = (int)MainForm.hashes.names[a.bones[i].Text];
}
else
{
if (b != null)
{
hash = (int)b.boneId;
}
else
{
continue;
}
}
//if(hash == -1)
//hash = (int)FileData.crc32(getNodeId(nodeid.get(i)).name);
o.WriteInt(flag); // flags...
o.WriteInt(hash); //hash
o.WriteInt(t1.Size()); // Offset in 1 table
o.WriteInt(t2Size); // Offset in 2 table
// calculate size needed
if (hasTrans[i])
{
t1.WriteFloat(minT[i].X);
t1.WriteFloat(minT[i].Y);
t1.WriteFloat(minT[i].Z);
if (!conTrans[i])
{
maxT[i].X -= minT[i].X;
maxT[i].Y -= minT[i].Y;
maxT[i].Z -= minT[i].Z;
t1.WriteFloat(maxT[i].X);
t1.WriteFloat(maxT[i].Y);
t1.WriteFloat(maxT[i].Z);
t2Size += 6;
}
}
if (hasRot[i])
{
t1.WriteFloat(minR[i].X);
t1.WriteFloat(minR[i].Y);
t1.WriteFloat(minR[i].Z);
if (!conRot[i])
{
maxR[i].X -= minR[i].X;
maxR[i].Y -= minR[i].Y;
maxR[i].Z -= minR[i].Z;
t1.WriteFloat(maxR[i].X);
t1.WriteFloat(maxR[i].Y);
t1.WriteFloat(maxR[i].Z);
t2Size += 6;
}
}
if (hasScale[i])
{
t1.WriteFloat(minS[i].X);
t1.WriteFloat(minS[i].Y);
t1.WriteFloat(minS[i].Z);
if (!conScale[i])
{
maxS[i].X -= minS[i].X;
maxS[i].Y -= minS[i].Y;
maxS[i].Z -= minS[i].Z;
t1.WriteFloat(maxS[i].X);
t1.WriteFloat(maxS[i].Y);
t1.WriteFloat(maxS[i].Z);
t2Size += 6;
}
}
}
o.WriteIntAt(o.Size(), 0x18);
o.WriteOutput(t1);
o.WriteIntAt(o.Size(), 0x1C);
// INTERPOLATION
a.SetFrame(0);
bool go = true;
for (int i = 0; i < a.frameCount; i++)
{
//a.NextFrame(vbn);
for (int j = 0; j < a.bones.Count; j++)
{
Bone node = vbn.getBone(a.bones[j].Text);
Animation.KeyNode anode = a.bones[j];
//if (node == null) continue;
if (hasTrans[j] && !conTrans[j])
{
t2.WriteShort((int)(((anode.xpos.GetValue(i) - minT[j].X) / maxT[j].X) * 0xFFFF));
t2.WriteShort((int)(((anode.ypos.GetValue(i) - minT[j].Y) / maxT[j].Y) * 0xFFFF));
t2.WriteShort((int)(((anode.zpos.GetValue(i) - minT[j].Z) / maxT[j].Z) * 0xFFFF));
}
if (hasRot[j] && !conRot[j])
{
Quaternion r = new Quaternion();
if (anode.rotType == Animation.RotationType.Quaternion)
{
Animation.KeyFrame[] x = anode.xrot.GetFrame(i);
Animation.KeyFrame[] y = anode.yrot.GetFrame(i);
Animation.KeyFrame[] z = anode.zrot.GetFrame(i);
Animation.KeyFrame[] w = anode.wrot.GetFrame(i);
Quaternion q1 = new Quaternion(x[0].Value, y[0].Value, z[0].Value, w[0].Value);
Quaternion q2 = new Quaternion(x[1].Value, y[1].Value, z[1].Value, w[1].Value);
if (x[0].Frame == i)
{
r = q1;
}
else
if (x[1].Frame == i)
{
r = q2;
}
else
{
r = Quaternion.Slerp(q1, q2, (i - x[0].Frame) / (x[1].Frame - x[0].Frame));
}
}
else
if (anode.rotType == Animation.RotationType.Euler)
{
float x = anode.xrot.HasAnimation() ? anode.xrot.GetValue(i) : node.rotation[0];
float y = anode.yrot.HasAnimation() ? anode.yrot.GetValue(i) : node.rotation[1];
float z = anode.zrot.HasAnimation() ? anode.zrot.GetValue(i) : node.rotation[2];
r = Animation.EulerToQuat(z, y, x);
}
r.Normalize();
t2.WriteShort((int)(((r.X - minR[j].X) / maxR[j].X) * 0xFFFF));
t2.WriteShort((int)(((r.Y - minR[j].Y) / maxR[j].Y) * 0xFFFF));
t2.WriteShort((int)(((r.Z - minR[j].Z) / maxR[j].Z) * 0xFFFF));
}
if (hasScale[j] && !conScale[j])
{
t2.WriteShort((int)(((anode.xsca.GetValue(i) - minS[j].X) / maxS[j].X) * 0xFFFF));
t2.WriteShort((int)(((anode.ysca.GetValue(i) - minS[j].Y) / maxS[j].Y) * 0xFFFF));
t2.WriteShort((int)(((anode.zsca.GetValue(i) - minS[j].Z) / maxS[j].Z) * 0xFFFF));
}
}
if (go)
{
o.WriteShortAt(t2.Size(), 0x12);
go = false;
}
}
o.WriteOutput(t2);
return(o.GetBytes());
}
}
public static byte[] createOMO(SkelAnimation a, VBN vbn)
{
List <int> nodeid = a.GetNodes(true, vbn);
int startNode = 0;
int sizeNode = nodeid.Count;
FileOutput o = new FileOutput();
o.endian = Endianness.Big;
FileOutput t1 = new FileOutput();
t1.endian = Endianness.Big;
FileOutput t2 = new FileOutput();
t2.endian = Endianness.Big;
o.WriteString("OMO ");
o.WriteShort(1); //idk
o.WriteShort(3); //idk
o.WriteInt(0x091E100C); //flags??
o.WriteShort(0); //padding
o.WriteShort(sizeNode); // numOfNodes
o.WriteShort(a.frames.Count); // frame size
o.WriteShort(0); // frame start ??
o.WriteInt(0);
o.WriteInt(0);
o.WriteInt(0);
o.WriteIntAt(o.Size(), 0x14);
// ASSESSMENT
KeyNode[] minmax = new KeyNode[sizeNode];
bool[] hasScale = new bool[sizeNode];
bool[] hasTrans = new bool[sizeNode];
bool[] hasRot = new bool[sizeNode];
bool[] conScale = new bool[sizeNode];
bool[] conTrans = new bool[sizeNode];
bool[] conRot = new bool[sizeNode];
a.SetFrame(0);
List <List <Bone> > Frames = new List <List <Bone> >();
VBN tempvbn = new VBN();
for (int i = 0; i < a.Size(); i++)
{
a.NextFrame(vbn, true);
List <Bone> bonelist = new List <Bone>();
for (int j = 0; j < nodeid.Count; j++)
{
Bone node = getNodeId(vbn, nodeid[j]);
Bone f1 = new Bone(tempvbn);
f1.pos = node.pos;
f1.rot = node.rot;
f1.sca = node.sca;
bonelist.Add(f1);
if (minmax[j] == null)
{
hasRot[j] = false;
hasScale[j] = false;
hasTrans[j] = false;
KeyNode n = a.GetFirstNode(nodeid[j]);
if (n != null)
{
if (n.rType != -1)
{
hasRot[j] = true;
}
if (n.tType != -1)
{
hasTrans[j] = true;
}
if (n.sType != -1)
{
hasScale[j] = true;
}
}
minmax[j] = new KeyNode();
minmax[j].t = new Vector3(999f, 999f, 999f);
minmax[j].r = new Quaternion(999f, 999f, 999f, 999f);
minmax[j].s = new Vector3(999f, 999f, 999f);
minmax[j].t2 = new Vector3(-999f, -999f, -999f);
minmax[j].r2 = new Quaternion(-999f, -999f, -999f, -999f);
minmax[j].s2 = new Vector3(-999f, -999f, -999f);
}
if (node.pos.X < minmax[j].t.X)
{
minmax[j].t.X = node.pos.X;
}
if (node.pos.X > minmax[j].t2.X)
{
minmax[j].t2.X = node.pos.X;
}
if (node.pos.Y < minmax[j].t.Y)
{
minmax[j].t.Y = node.pos.Y;
}
if (node.pos.Y > minmax[j].t2.Y)
{
minmax[j].t2.Y = node.pos.Y;
}
if (node.pos.Z < minmax[j].t.Z)
{
minmax[j].t.Z = node.pos.Z;
}
if (node.pos.Z > minmax[j].t2.Z)
{
minmax[j].t2.Z = node.pos.Z;
}
// float[] fix = Node.fix360(node.nrx, node.nry, node.nrz);
//float[] f = Bone.CalculateRotation(node.nrx, node.nry, node.nrz);
Quaternion r = node.rot;
if (r.X < minmax[j].r.X)
{
minmax[j].r.X = r.X;
}
if (r.X > minmax[j].r2.X)
{
minmax[j].r2.X = r.X;
}
if (r.Y < minmax[j].r.Y)
{
minmax[j].r.Y = r.Y;
}
if (r.Y > minmax[j].r2.Y)
{
minmax[j].r2.Y = r.Y;
}
if (r.Z < minmax[j].r.Z)
{
minmax[j].r.Z = r.Z;
}
if (r.Z > minmax[j].r2.Z)
{
minmax[j].r2.Z = r.Z;
}
if (node.sca.X < minmax[j].s.X)
{
minmax[j].s.X = node.sca.X;
}
if (node.sca.X > minmax[j].s2.X)
{
minmax[j].s2.X = node.sca.X;
}
if (node.sca.Y < minmax[j].s.Y)
{
minmax[j].s.Y = node.sca.Y;
}
if (node.sca.Y > minmax[j].s2.Y)
{
minmax[j].s2.Y = node.sca.Y;
}
if (node.sca.Z < minmax[j].s.Z)
{
minmax[j].s.Z = node.sca.Z;
}
if (node.sca.Z > minmax[j].s2.Z)
{
minmax[j].s2.Z = node.sca.Z;
}
}
}
// NODE INFO
int t2Size = 0;
for (int i = 0; i < sizeNode; i++)
{
int flag = 0;
conRot[i] = false;
conScale[i] = false;
conTrans[i] = false;
// check for constant
if (minmax[i].t.Equals(minmax[i].t2))
{
conTrans[i] = true;
}
if (minmax[i].r.Equals(minmax[i].r2))
{
conRot[i] = true;
}
if (minmax[i].s.Equals(minmax[i].s2))
{
conScale[i] = true;
}
if (hasTrans[i])
{
flag |= 0x01000000;
}
if (hasRot[i])
{
flag |= 0x02000000;
}
if (hasScale[i])
{
flag |= 0x04000000;
}
if (conTrans[i] && hasTrans[i])
{
flag |= 0x00200000;
}
else
{
flag |= 0x00080000;
}
if (conRot[i] && hasRot[i])
{
flag |= 0x00007000;
}
else
{
flag |= 0x00005000;
}
if (conScale[i] && hasScale[i])
{
flag |= 0x00000200;
}
else
{
flag |= 0x00000080;
}
flag |= 0x00000001;
int hash = -1;
if (MainForm.hashes.names.ContainsKey(getNodeId(vbn, nodeid[i]).Text))
{
hash = (int)MainForm.hashes.names[getNodeId(vbn, nodeid[i]).Text];
}
//else hash = (int)FileData.crc12(getNodeId(vbn, nodeid[i]).Text);
o.WriteInt(flag); // flags...
o.WriteInt(hash); //hash
o.WriteInt(t1.Size()); // Offset in 1 table
o.WriteInt(t2Size); // Offset in 2 table
// calculate size needed
if (hasTrans[i])
{
t1.WriteFloat(minmax[i].t.X);
t1.WriteFloat(minmax[i].t.Y);
t1.WriteFloat(minmax[i].t.Z);
if (!conTrans[i])
{
minmax[i].t2.X -= minmax[i].t.X;
minmax[i].t2.Y -= minmax[i].t.Y;
minmax[i].t2.Z -= minmax[i].t.Z;
t1.WriteFloat(minmax[i].t2.X);
t1.WriteFloat(minmax[i].t2.Y);
t1.WriteFloat(minmax[i].t2.Z);
t2Size += 6;
}
}
if (hasRot[i])
{
t1.WriteFloat(minmax[i].r.X);
t1.WriteFloat(minmax[i].r.Y);
t1.WriteFloat(minmax[i].r.Z);
if (!conRot[i])
{
minmax[i].r2.X -= minmax[i].r.X;
minmax[i].r2.Y -= minmax[i].r.Y;
minmax[i].r2.Z -= minmax[i].r.Z;
t1.WriteFloat(minmax[i].r2.X);
t1.WriteFloat(minmax[i].r2.Y);
t1.WriteFloat(minmax[i].r2.Z);
t2Size += 6;
}
}
if (hasScale[i])
{
t1.WriteFloat(minmax[i].s.X);
t1.WriteFloat(minmax[i].s.Y);
t1.WriteFloat(minmax[i].s.Z);
if (!conScale[i])
{
minmax[i].s2.X -= minmax[i].s.X;
minmax[i].s2.Y -= minmax[i].s.Y;
minmax[i].s2.Z -= minmax[i].s.Z;
t1.WriteFloat(minmax[i].s2.X);
t1.WriteFloat(minmax[i].s2.Y);
t1.WriteFloat(minmax[i].s2.Z);
t2Size += 6;
}
}
}
o.WriteIntAt(o.Size(), 0x18);
o.WriteOutput(t1);
o.WriteIntAt(o.Size(), 0x1C);
// INTERPOLATION
//a.setFrame(0);
bool go = false;
foreach (List <Bone> bonelist in Frames)
{
//a.nextFrame(vbn);
int j = 0;
foreach (Bone node in bonelist)
{
//Bone node = getNodeId(vbn, nodeid[j]);
if (hasTrans[j] && !conTrans[j])
{
t2.WriteShort((int)(((node.pos.X - minmax[j].t.X) / minmax[j].t2.X) * 0xFFFF));
t2.WriteShort((int)(((node.pos.Y - minmax[j].t.Y) / minmax[j].t2.Y) * 0xFFFF));
t2.WriteShort((int)(((node.pos.Z - minmax[j].t.Z) / minmax[j].t2.Z) * 0xFFFF));
}
if (hasRot[j] && !conRot[j])
{
// float[] fix = Node.fix360(node.nrx, node.nry, node.nrz);
//float[] f = CalculateRotation(node.nrx, node.nry, node.nrz);
Quaternion r = node.rot;
t2.WriteShort((int)(((r.X - minmax[j].r.X) / minmax[j].r2.X) * 0xFFFF));
t2.WriteShort((int)(((r.Y - minmax[j].r.Y) / minmax[j].r2.Y) * 0xFFFF));
t2.WriteShort((int)(((r.Z - minmax[j].r.Z) / minmax[j].r2.Z) * 0xFFFF));
}
if (hasScale[j] && !conScale[j])
{
t2.WriteShort((int)(((node.sca.X - minmax[j].s.X) / minmax[j].s2.X) * 0xFFFF));
t2.WriteShort((int)(((node.sca.Y - minmax[j].s.Y) / minmax[j].s2.Y) * 0xFFFF));
t2.WriteShort((int)(((node.sca.Z - minmax[j].s.Z) / minmax[j].s2.Z) * 0xFFFF));
}
j++;
}
if (!go)
{
o.WriteShortAt(t2.Size(), 0x12);
go = true;
}
}
o.WriteOutput(t2);
return(o.GetBytes());
}
